University of Adelaide

What you'll study

The Experimental Physics major combines core physics theory with extensive laboratory and project work. Early study typically covers classical mechanics, electromagnetism, waves and optics, thermal physics and introductory quantum theory. As you progress you study advanced quantum mechanics, statistical mechanics, condensed matter and atomic and molecular physics alongside specialised experimental subjects such as optics and photonics, electronics and instrumentation, spectroscopy, and experimental techniques.

• Foundations: classical mechanics, electromagnetism, mathematical methods for physicists
• Core physics: quantum physics, thermodynamics and statistical mechanics, waves and optics
• Experimental skills: laboratory techniques, electronic circuits, sensor systems, measurement uncertainty and data analysis
• Advanced topics: condensed matter physics, atomic/molecular physics, photonics and optical materials
• Computational skills: programming for physicists, numerical methods and data processing
• Research project or capstone: independent experimental project, often involving design, instrumentation, data acquisition and analysis

The degree is delivered through a mix of lectures, tutorials, practical laboratory classes and supervised projects. Students can often tailor units to their interests, choosing electives in areas such as nanotechnology, materials science, medical physics, renewable energy technologies or advanced instrumentation. Students who wish to pursue research can continue into an honours year or postgraduate research programmes.

Entry requirements

Admission to the Bachelor of Science with a major in Experimental Physics normally requires completion of secondary education with a competitive final score (for local applicants, an ATAR or equivalent). Applicants are expected to have prior study in mathematics and physics at secondary level. International applicants should meet recognised international secondary qualifications and meet the University’s English language requirements.

Alternative entry pathways are available for mature‑age applicants or those with relevant tertiary study or work experience. Meeting the minimum entry pathway does not guarantee admission; selection may consider subject background and academic preparation in quantitative subjects.

Career prospects

Graduates with an experimental physics background develop strong analytical, quantitative and technical skills valued across many sectors. Typical career paths include roles in:

• Research and development in universities, government laboratories and private industry
• Instrument design, test and calibration for companies in optics, photonics, sensors and measurement
• Electronics and control systems engineering, test engineering and product development
• Data analytics, software development and computational modelling
• Metrology, quality assurance and technical consultancy
• Technical roles in energy, defence, manufacturing, medical technology and telecommunications

Graduates who wish to become professional researchers typically undertake an honours year followed by a research‑based postgraduate degree (MPhil/PhD). Those aiming for careers in teaching or specialised fields such as medical physics will usually complete additional professional training or postgraduate qualifications.

Why study at University of Adelaide

The University of Adelaide has a long history of research and teaching in physical sciences and offers strong experimental facilities, modern laboratories and dedicated instrumentation resources. Students benefit from links between the School of Physical Sciences and research institutes that focus on photonics, materials and sensing, providing opportunities for industry‑facing projects and research collaborations.

Small‑group laboratory classes and supervised projects give practical experience in experimental design, data acquisition and analysis. The University’s engagement with local and national research organisations and industry partners also supports internships, collaborative projects and pathways to postgraduate research. These features make the programme suitable for students seeking a hands‑on physics education with clear pathways into technical and research careers.